Predicting areas of high diesel particulate matter emissions in Phoenix, Arizona, using spatial analysis techniquesA paper submitted to the Journal of Environmental Engineering and Science.

2010 ◽  
Vol 37 (2) ◽  
pp. 354-365
Author(s):  
Bryan M. Penfold ◽  
Hilary R. Hafner ◽  
Steven G. Brown

Growing evidence suggests that inhalation exposure to diesel exhaust, including diesel particulate matter (DPM), causes acute and chronic health effects. As a result, interest in monitoring diesel exhaust has increased. Maps of emissions sources, emissions activity data, and meteorology were combined within a geographic information system (GIS) suitability model to produce a composite map identifying areas where DPM emissions are likely to be high. The results of the GIS model were compared with (i) the locations of existing monitoring sites in Phoenix, Arizona, and (ii) the spatial distribution of population. The results indicate that two existing sites are located in areas where DPM emissions are predicted to be high; however, incorporating meteorology as a factor showed that one site is located upwind of a predicted high DPM area. Consideration of population density showed high density in two areas that appear to be moderately influenced by DPM.

2017 ◽  
Vol 19 (10) ◽  
pp. 1320-1326 ◽  
Author(s):  
Raymond C. Bott ◽  
Katherine M. Kirk ◽  
Michael B. Logan ◽  
Damien A. Reid

Diesel exhaust emissions have been measured throughout the living and working areas of fire stations in Queensland, Australia.


2004 ◽  
Author(s):  
Z. Gerald Liu ◽  
Edward M. Thurow ◽  
Byron A. Pardue ◽  
Thomas J. Wosikowski

Catalysts ◽  
2020 ◽  
Vol 11 (1) ◽  
pp. 29
Author(s):  
Xiurong Guo ◽  
Khanh Hop Ha ◽  
Danfeng Du

The purification of diesel exhaust gas is of great importance to prevent the atmospheric emission of major pollutants such as diesel particulate matter and nitrogen oxides and meet the environmental regulations. The atmospheric-pressure plasma is attracting increasing interest and is a promising after-treatment technology for purifying diesel emission at low temperatures. However, when compared with the numerous publications on nitrogen oxides reduction by non-thermal plasma, using non-thermal plasma to particulate matter treatment have relatively limited. This work provides a comprehensive review of the plasma applications for diesel particulate matter treatment, including self-regenerating diesel particulate filter, diesel particulate matter removal, and simultaneous removal of diesel particulate matter and nitrogen oxides. The treatment of particulate matter from both simulated particulate matter sources and actual diesel engines also discussed in this comprehensive review. The challenge to this technology is limited energy consumption for plasma, which should be less than 5% (~30 J/L) of the overall fuel consumption. Until now, the atmospheric-pressure plasma has been no commercial implementation in diesel exhaust gas treatment, so more research is needed to be done in this field.


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